Rice straw-derived lipid production by HMF/furfural-tolerant oleaginous yeast generated by adaptive laboratory evolution

•Adaptive laboratory evolution of R. toruloides was performed for inhibitor tolerance.•Furfural and hydroxymethoxy furfural were used as furan aldehyde inhibitors.•The evolved strain exhibited 2.5-fold higher specific growth rate than the wild-type.•The evolved strain produced 54% of the total lipid...

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Veröffentlicht in:Bioresource technology 2023-01, Vol.367, p.128220-128220, Article 128220
Hauptverfasser: Park, Gwon Woo, Shin, Subin, Kim, Seon Jeong, Lee, Jin-Suk, Moon, Myounghoon, Min, Kyoungseon
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container_issue
container_start_page 128220
container_title Bioresource technology
container_volume 367
creator Park, Gwon Woo
Shin, Subin
Kim, Seon Jeong
Lee, Jin-Suk
Moon, Myounghoon
Min, Kyoungseon
description •Adaptive laboratory evolution of R. toruloides was performed for inhibitor tolerance.•Furfural and hydroxymethoxy furfural were used as furan aldehyde inhibitors.•The evolved strain exhibited 2.5-fold higher specific growth rate than the wild-type.•The evolved strain produced 54% of the total lipids from rice straw hydrolysate. Research on producing medium- and long-chain hydrocarbons as drop-in biofuels has recently accelerated. In addition, lipids are emerging as precursors for biofuel production, and thus, microbial lipid production utilizing agrowastes is becoming a feasible platform technology. Nonetheless, microorganisms are often inhibited by furan aldehydes in biomass-derived hydrolysates. Accordingly, this study aimed to develop oleaginous yeast strains that can tolerate furan aldehydes for producing lipids as biofuel precursors. Rhodosporidium toruloides was selected as the target for adaptive laboratory evolution. The evolved strain, which was obtained from 16 rounds of subcultures, showed a 2.5-fold higher specific growth rate than the wild-type strain in the presence of furan aldehydes and slightly higher lipid production in rice straw hydrolysate. The results discussed in this study provide insights into the production of lipid production by oleaginous yeast utilizing agrowastes as feedstock to obtain drop-in biofuels and contribute to feasible strategies to address climate crises.
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Research on producing medium- and long-chain hydrocarbons as drop-in biofuels has recently accelerated. In addition, lipids are emerging as precursors for biofuel production, and thus, microbial lipid production utilizing agrowastes is becoming a feasible platform technology. Nonetheless, microorganisms are often inhibited by furan aldehydes in biomass-derived hydrolysates. Accordingly, this study aimed to develop oleaginous yeast strains that can tolerate furan aldehydes for producing lipids as biofuel precursors. Rhodosporidium toruloides was selected as the target for adaptive laboratory evolution. The evolved strain, which was obtained from 16 rounds of subcultures, showed a 2.5-fold higher specific growth rate than the wild-type strain in the presence of furan aldehydes and slightly higher lipid production in rice straw hydrolysate. 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source Elsevier ScienceDirect Journals
subjects Adaptive laboratory evolution
Agrowastes
biofuels
climate
evolution
feedstocks
fuel production
Furan aldehydes
furans
hydrolysates
lipids
Microbial lipid production
Oleaginous yeast
Rhodosporidium toruloides
rice straw
specific growth rate
technology
yeasts
title Rice straw-derived lipid production by HMF/furfural-tolerant oleaginous yeast generated by adaptive laboratory evolution
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